From self-replicating molecules in Archean seas, to eyeless fish in the Cambrian deep, to mammals scurrying from dinosaurs in the dark, and then, finally, improbably, ourselves – evolution shaped us.
Organisms reproduced imperfectly. Mistakes made when copying genes sometimes made them better fit to their environments, so those genes tended to get passed on. More reproduction followed, and more mistakes, the process repeating over billions of generations. Finally, Homo sapiens appeared. But we aren’t the end of that story. Evolution won’t stop with us, and we might even be evolving faster than ever.
It’s hard to predict the future. The world will probably change in ways we can’t imagine. But we can make educated guesses. Paradoxically, the best way to predict the future is probably looking back at the past, and assuming past trends will continue going forward. This suggests some surprising things about our future.
*Based on The Cybernetic Theory of Mind eBook series (2022) by evolutionary cyberneticist Alex M. Vikoulov, available on Amazon:
as well as his magnum opus The Syntellect Hypothesis: Five Paradigms of the Mind’s Evolution (2020), available as eBook, paperback, hardcover, and audiobook on Amazon:
“You can’t explain consciousness in terms of classical physics or neuroscience alone. The best description of reality should be monistic. Quantum physics and consciousness are thus somehow linked by a certain mechanism… It is consciousness that assigns measurement values to entangled quantum states (qubits-to-digits of qualia, if you will). If we assume consciousness is fundamental, most phenomena become much easier to explain.
The Mind-Body dilemma has been known ever since René Descartes as Cartesian Dualism and later has been reformulated by the Australian philosopher David Chalmers as the ‘hard problem’ of consciousness. Western science and philosophy have been trying for centuries now, rather unsuccessfully, to explain how mind emerges from matter while Eastern philosophy dismisses the hard problem of consciousness altogether by teaching that matter emerges from mind. The premise of Experiential Realism is that the latter must be true: Despite our common human intuitions, Mind over Matter proves to be valid again and again in quantum physics experiments.
From the Digital Physics perspective, particles of matter are pixels, or voxels if you prefer, on the screen of our perception. Your Universe is in consciousness. And it’s a teleological process of unfolding patterns, evolution of your core self, ‘non-local’ consciousness instantiating into the phenomenal mind for the duration of a lifetime.
Dr. Karen Miga, a co-lead of the T2T consortium and professor at the University of California, Santa Cruz, told Medical News Today, “The availability of a complete genome sequence will advance our understanding of the most difficult-to-sequence and repeat-rich parts of the human genome.”
“In the future, when someone has their genome sequenced, researchers and clinicians will be able to identify all of the variants in their DNA and use that information to better guide their healthcare. Knowing the complete sequence of the human genome will provide a comprehensive framework for scientists to study human genomic variation, disease, and evolution.”
Scientists said this full picture of the genome will give humanity a greater understanding of our evolution and biology while also opening the door to medical discoveries in areas like aging, neurodegenerative conditions, cancer and heart disease.
“We’re just broadening our opportunities to understand human disease,” said Karen Miga, an author of one of the six studies published Thursday.
The research caps off decades of work. The first draft of the human genome was announced in a White House ceremony in 2000 by leaders of two competing entities: an international publicly funded project led by an agency of the U.S. National Institutes of Health and a private company, Maryland-based Celera Genomics.
In biology, symmetry is typically the rule rather than the exception. Our bodies have left and right halves, starfish radiate from a central point and even trees, though not largely symmetrical, still produce symmetrical flowers. In fact, asymmetry in biology seems quite rare by comparison.
Does this mean that evolution has a preference for symmetry? In a new study, an international group of researchers, led by Iain Johnston, a professor in the Department of Mathematics at the University of Bergen in Norway, says it does.
The first galaxies in the universe are a mystery to us — but that could soon change.
The cosmos has come a long way (pun intended). But the most fantastic story of all time isn’t fully understood — especially the early chapters, ‘written’ in history during the first two to three hundred million years of the universe’s 13.8 billion-year existence.
The James Webb Space Telescope could be the key. The observatory can look about three times as far back in time than the iconic Hubble. The Webb will detect infrared wavelengths long enough to pierce through the dense smog of all the light and dust that sits between Earth and the furthest galactic posts, revealing information about the ancient universe where these wavelengths began their journey through space billions of years ago.
Although not quite yet ready to collect data, the Webb Telescope promises a level of perception made possible by its four instruments. These instruments can operate at the same time to siphon observations of objects like galaxies — maximizing the efficiency of the telescope.
These features could have a special significance for the Earth’s evolution.
When it comes to the universe and all of its mysteries, there are many things we know we don’t know. Some are minor and mostly inconsequential, but there are other cosmological unknowns that leave huge blanks in our understanding of how things work on large and small scales. How our planet was created is one such mystery. Let’s go all the way back to the beginning when the Sun was just a clump of gas and dust to understand how our solar system may have formed.
## How stars form.
Traditional wisdom says that all stars spawn from immense clouds of spinning gas and dust, known as molecular clouds, often containing the mass of hundreds of millions of stars. The environment within these stellar nurseries tends to be extremely turbulent, preventing all of the gas and dust from being distributed evenly throughout the molecular cloud. Drawn together by the forces of gravity, once enough matter has collected in one area, the cloud begins to heat up and ultimately collapses under its own weight — creating something known as a protostar. Feeding off the material encircling it, the protostar eventually becomes hot and large enough to jumpstart the process of thermonuclear fusion.
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Research has helped us understand how planets form, like Earth and planets like Jupiter and Neptune.
